Liquid Degasification Regulation/Control TRIZ Cases

See how a degassing membrane separates air contamination from refrigerant using diffusion, with

A degassing membrane removes air contamination from low-pressure chillers while limiting refrigerant loss and purge unit complexity.

An air removal line and dual fluid supply paths purge trapped air during supercritical substrate drying, reducing defects and protecting patterns.

Combining level and mass sensing with AI filtering distinguishes foam from liquid, preventing false overflow alarms and chemical waste.

Mass and level sensing are combined to distinguish foam from true liquid volume, preventing false overflow alarms and chemical waste.

Opening the recovery line before supply removes air bubbles from heated chemical liquid, preventing particles and substrate defects.

Curved flow paths and surface-induced shear help coalesce and separate small gas bubbles from oily hydraulic media in less space and without extra energy.

An arc-shaped separation section uses centrifugal force to remove gas in tight hydraulic piping while maintaining separation at higher flow rates.

Captures separator gas in a pressure vessel, compresses it to pipeline feed, and cuts well completion venting and flaring by over 80%.

A horizontal separator and coalescer remove large and small oxygen bubbles from circulating water, improving PEM electrolyser safety.

Circulating ink under reduced pressure and adjusting circulation time by dissolved air level improves degassing and helps prevent nozzle clogging.

A rotating annular channel creates a pressure gradient that vents air bubbles without a vacuum pump, reducing deaeration system size and complexity.

Learn how pressure reduction and switchable ink circulation improve dissolved-air removal in larger ink tanks.

Inert-gas pressure and a liquid-impermeable, gas-permeable tube remove bubbles before substrate processing.

Heating microfluidic droplets with electrowetting electrodes generates bubbles that carrier fluid removes, preserving biological sample integrity.

A solid-liquid separator applies vibrational energy to a tortuous flow path to enhance particulate settling and clarify drilling fluids.

Thickened vessel wall houses bursting disc holders, eliminating complex steel blocks and reducing installation volume.

A centrifugal pump gas separator uses a spring shut-off valve to release accumulated gas from the empty chamber.

A gas-liquid separating device recovers target gases from mixtures using decompressors in dedicated recovery paths.

Hardware processor monitors pressure difference between vacuum chambers to detect deaeration module deterioration.

A 3D printed bubble trap uses an asymmetric cavity and tubular spout to remove gas bubbles from liquid streams.

Buoyant force actuates the float to open the valve, preventing oil droplet loss during gas removal.

A deaeration device creates a pressure gradient to extract air bubbles from thermal fluid streams.

A heat exchange device separates gaseous and liquid phases using a central guide tube to enable continuous fluid circulation.

Positive displacement pumps isolate discrete liquid volumes and restrict gas flow, resolving vapor entrainment issues during variable viscosity drainage.

Removing dissolved carbon dioxide before ultraviolet irradiation prevents interference, ensuring efficient ozone decomposition for safe water reuse.

A pressure chamber separates liquid into gas-rich and gas-free subparts using controlled valve elements.

Variable flow cross sections shift maximum velocity upstream to prevent premature outgassing and foaming during beverage production.

A dual mud gas separator design uses a containment chamber to capture gas during liquid seal blowouts.

A porous membrane separates gas from liquid within a fluidic device using controlled pressure differentials across its permeable structure.

A venturi ejector moves drilling fluid into a gas-liquid separator to release entrained mud gases.

A filling condition generation device adjusts nozzle position and ejection amount using a liquid surface sensor.

A deaerator uses a flow diverter to split heat transfer fluid into primary and secondary streams for gas removal.

A photoresist dispensing system uses a filter and trap to remove gas bubbles from liquid resist.

Float system adjusts oil and vapor recovery intakes to compensate for fluctuating fluid levels in holding tanks.

Segmented injection points with critical flow elements prevent erosion from local velocity peaks while ensuring uniform gas mixing in distillation columns.

Differential pressure sensors measure gas flowrate through the conduit without internal restrictions, eliminating spark risks in hazardous mining zones.

A compact gas-liquid separator uses a vertical tubular housing and multi-nozzle inlet to stabilize phase separation.

A shaft seal device mounted on a rotating electrical machine integrates degassing components to maintain oil quality.

Jet pump de-aeration removes dissolved air via pressure sensors, preventing cavitation and performance loss.

A vacuum control system maintains constant pressure using a DC brushless motor and pressure sensor feedback loop.

A vacuuming apparatus removes bubbles from insulating oil in medical devices.

A vacuum assembly with a movable composite oxygen permeable membrane selectively removes dissolved oxygen from aircraft fuel.

A membrane degassing control system regulates chamber pressure to maintain stable fluid delivery.

Nozzles spray liquid into a pressurized chamber to create a mist, while a float valve manages pressure without complex controls.

Segregating normal flow from surge events into distinct vessels prevents downstream shutdowns caused by pigging-induced liquid slugs.

A gas accumulator bypasses liquid pumps to trap free gas and inject flushing liquid, maintaining flow efficiency.

A degasser uses magnetic coupling to drive an impeller without liquid-specific floats.

A heat transfer fluid system heats process streams via external exchangers to facilitate degassing.

A degassing pipe assembly secured by positioning joints enables rapid removal and replacement within the chamber.

A separation device uses a sinker and spring to shut off fluid outlets.